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  1. Activation of Subcutaneous Mast Cells in Acupuncture Points Triggers Analgesia
  2. Foundations of Electrophysiology
  3. Cellular Mechanisms in Acupuncture Effects
  4. P2Y 13 and P2X 7 receptors modulate mechanically induced adenosine triphosphate release from mast cells
  5. Elektrophysiologie
  6. Inhibition of the Na<sup>+</sup>/Ca<sup>2+</sup> Exchanger NCX<sub>1</sub> Expressed in <i>Xenopus</i> Oocyte by Glycyrrhizic Acid and Cy...
  7. Catechins from green tea modulate neurotransmitter transporter activity in Xenopus oocytes
  8. Inhibitory efficacy of bufadienolides on Na + ,K + -pump activity versus cell proliferation
  9. Electrophysiology
  10. Heat induces adenosine triphosphate release from mast cells in vitro: a putative mechanism for moxibustion
  11. Regulation of Membrane Transporters by Delta-Opioid Receptors
  12. Modulation of Extracellular ATP Content of Mast Cells and DRG Neurons by Irradiation: Studies on Underlying Mechanism of Low-Level-Laser Therapy
  13. TRPV Channels in Mast Cells as a Target for Low-Level-Laser Therapy
  14. Genistein as Antiviral Drug against HIV Ion Channel
  15. The ORF4a protein of human coronavirus 229E functions as a viroporin that regulates viral production
  16. Kaempferol Derivatives as Antiviral Drugs against the 3a Channel Protein of Coronavirus
  17. ATP Release from Mast Cells by Physical Stimulation: A Putative Early Step in Activation of Acupuncture Points
  18. Cellular Mechanisms in Acupuncture Points and Affected Sites
  19. Mast-Cell Degranulation Induced by Physical Stimuli Involves the Activation of Transient-Receptor-Potential Channel TRPV2
  20. Coronaviral Ion Channels as Target for Chinese Herbal Medicine
  21. Activation of Mast Cells by Acupuncture Stimuli
  22. Stimulation of TRPV1 by Green Laser Light
  23. Inhibition of Activity of GABA Transporter GAT1 byδ-Opioid Receptor
  24. Regulation of the cardiovascular function by CO2 laser stimulation in anesthetized rats
  25. DIDS blocks a chloride-dependent current that is mediated by the 2B protein of enterovirus 71
  26. Emodin inhibits current through SARS-associated coronavirus 3a protein
  27. Effects ofα-Asarone on the Glutamate Transporter EAAC1 inXenopusOocytes
  28. Interactions of Na+,K+-ATPase and co-expressed δ-opioid receptor
  29. Single-channel properties of a stretch-sensitive chloride channel in the human mast cell line HMC-1
  30. Epigallocatechin-3-gallate is an inhibitor of Na+,K+-ATPase by favoring the E1 conformation
  31. A Fluid Mechanics Model of Tissue Fluid Flow in Limb Connective Tissue—A Mechanism of Acupuncture Signal Transmission
  32. Inhibition of P2X7 receptor by extracts of Chinese medicine
  33. Interaction of δ-opioid receptor with membrane transporters: Possible mechanisms in pain suppression by acupuncture
  34. Fast degradation of the auxiliary subunit of Na+/K+-ATPase in the plasma membrane of HeLa cells
  35. Regulation of the glutamate transporter EAAC1 by expression and activation of δ-opioid receptor
  36. Identification and Selective Inhibition of the Channel Mode of the Neuronal GABA Transporter 1
  37. Involvement in K+ access of Leu318 at the extracellular domain flanking M3 and M4 of the Na+,K+-ATPase α-subunit
  38. Na,K-ATPase mutations in familial hemiplegic migraine lead to functional inactivation
  39. The role of N-glycosylation in the stability, trafficking and GABA-uptake of GABA-transporter 1
  40. Expression and transport function of the glutamate transporter EAAC1 inXenopus oocytes is regulated by syntaxin 1A
  41. Analgesic Effect of Electroacupuncture on Complete Freund's Adjuvant-Induced Inflammatory Pain in Mice: A Model of Antipain Treatment by Acupuncture in Mice
  42. Antiepileptic action induced by a combination of vigabatrin and tiagabine
  43. Different functional roles of arginine residues 39 and 61 and tyrosine residue 98 in transport and channel mode of the glutamate transporter EAAC1
  44. Modulation of Na+,K+ pumping and neurotransmitter uptake by β-amyloid
  45. Down-regulation of GABA-transporter function by hippocampal translation products: its possible role in epilepsy
  46. Modification of the PKC Phosphorylation Site Ser-23 of the Rat α1 Subunit
  47. Functional role of the N-terminus of Na+,K+-ATPase α-subunit as an inactivation gate of palytoxin-induced pump channel
  48. Selective suppression of hippocampal region hyperexcitability related to seizure susceptibility in epileptic El mice by the GABA-transporter inhibitor tiagabine
  49. Stimulation of Xenopus oocyte Na+,K+ATPase by the serum and glucocorticoid-dependent kinase sgk1
  50. RNA from heart of young and old rats leads to the expression of protein(s) in Xenopus oocytes that alter the transport activity of rat Na+,K+-ATPases differently
  51. Extracellular pH modulates kinetics of the Na+,K+-ATPase
  52. Enhancement of Antiepileptic Effects of the GAUA-Transport Inhibitor Tiagabine by GABA-Transaminase Inhibitor Vigabatrin
  53. Functional significance of N- and C-terminus of the amino acid transporters EAAC1 and ASCT1: characterization of chimeric transporters
  54. Inhibition of uptake, steady-state currents, and transient charge movements generated by the neuronal GABA transporter by various anticonvulsant drugs
  55. Effect of mutation of glycosylation sites on the Na+ dependence of steady-state and transient currents generated by the neuronal GABA transporter
  56. Val 70, Phe 72 and the last seven amino acid residues of C-terminal are essential to the function of norepinephrine transporter
  57. Inhibition of the Na + ,K + pump by the epileptogenic pentylenetetrazole
  58. Identification of Ser354 and Ser357 involved in the function of norepinephrine transporter
  59. Voltage-dependent inhibition of the Na+,K+ pump by tetraethylammonium
  60. The Na+ ,K+ -ATPase carrying the carboxy-terminal Ca2+ /calmodulin binding domain of the Ca2+ pump has 2Na+ ,2K+ stoichiometry and lost charge movement in Na+ /Na+ exchange
  61. Significance of the glutamic acid residues Glu334, Glu959, and Glu960 of the α subunits of Torpedo Na+,K+ pumps for transport activity and ouabain binding
  62. Asssembly of the chimeric Na+K+-ATPase and H+K+-ATPase β-subunit with the Na+K+-ATPase α-subunit
  63. Transport Activity of a Chimeric Na+,K+-ATPase with Ca2+/Calmodulin Binding Domain from Ca2+-ATPase in Xenopus Oocytes
  64. The Ca2+ /calmodulin binding domain of the Ca2+ -ATPase linked to the Na+ ,K+ -ATPase alters transport stoichiometry
  66. Studies on the access channel of the Na,K-ATPase by construction and expression of mutant Na,K-ATPase β subunits.
  67. Involvement of the GTP binding protein Rho in constitutive endocytosis in Xenopus laevis oocytes
  68. Introductory Remarks
  69. The Na+/K+ Pump: Structure and Function of the Alpha-Subunit
  70. Analysing the Na+/K+-pump in Outside-out Giant Membrane Patches of Xenopus Oocytes
  71. Electrogenic Properties of the Endogenous and of Modified Torpedo Na+/K+-Pumps in Xenopus Oocytes: The Access Channel for External Cations
  72. The Role of Putative Intramembraneous Glutamic Acid Residues of the α-Subunit of the Sodium Pump in External Cation Binding
  73. Inward-directed current generated by the Na+,K+ pump in Na+- and K+-free medium
  74. Structure-function relationships of cation binding in the Na+/K+-ATPase
  75. Voltage-dependent inhibition of the sodium pump by external sodium: Species differences and possible role of the N-terminus of the ?-subunit
  76. Voltage-dependent stimulation of Na+/K+-pump current by external cations: selectivity of different K+ congeners
  77. Regulation of endogenous and expressed Na+/K+ pumps in Xenopus oocytes by membrane potential and stimulation of protein kinases
  78. Potential dependence of mouse band 3 - mediated anion exchange in Xenopus oocytes
  79. Up-regulation of sodium pump activity in Xenopus laevis oocytes by expression of heterologous β 1 subunits of the sodium pump
  80. Conditions for a backward-running Na+/K+ pump in Xenopus oocytes
  81. Stimulation of the Na+/K+ pump by external [K+] is regulated by voltage-dependent gating.
  82. Endogenous l-glutamate transport in oocytes of Xenopus laevis
  83. A negative slope in the current-voltage relationship of the Na+/K+ pump inXenopus oocytes produced by reduction of external [K+]
  84. Comparison of a Na+/d-glucose contransporter from rat intestine expressed in oocytes of Xenopus laevis with the endogenous cotransporter
  85. Activation of protein kinase C by phorbol ester induces downregulation of the Na+/K+-ATPase in oocytes ofXenopus laevis
  86. Endogenousd-glucose transport in oocytes ofXenopus laevis
  87. [7] Recording single-channel currents from human red cells
  88. Modulation of the Ca2+- or Pb2+-activated K+-selective channels in human red cells II. Parallelisms to modulation of the activity of a membrane-bound oxidoreductase
  89. [30] Measurement of erythroid band 3 protein-mediated anion transport in mRNA-injected oocytes of Xenopus laevis
  90. studies of erythroid band 3
  91. Characteristics of the Na+/K+-ATPase from Torpedo californica expressed in Xenopus oocytes: A combination of tracer flux measurements with electrophysiological measurements
  92. Voltage dependence of the Na−K ATPase: measurements of ouabain-dependent membrane current and ouabain binding in oocytes ofXenopus laevis
  93. Sodium and potassium currents in acutely demyelinated internodes of rabbit sciatic nerves.
  94. Potential dependence of the “electrically silent” anion exchange across the plasma membrane ofXenopus oocytes mediated by the band-3 protein of mouse red blood cells
  95. Voltage dependence of the rheogenic Na+/K+ ATPase in the membrane of oocytes ofXenopus laevis
  96. Effects of Calcium on Structure and Function of the Human Red Blood Cell Membrane
  97. Effects of vanadate, menadione and menadione analogs on the Ca2+-activated K+ channels in human red cells. Possible relations to membrane-bound oxidoreductase activity
  98. Ca2+-activated K+ permeability in human erythrocytes: Modulation of single-channel events
  99. Lead-induced activation and inhibition of potassium-selective channels in the human red blood cell
  100. Comparison of the effects of Anemonia toxin II on sodium and gating currents in frog myelinated nerve
  101. Single K+ channels in membrane evaginations of smooth muscle cells
  102. Inhibition of Na-alanine contransport in oocytes ofXenopus laevis during meiotic maturation is voltage-regulated
  103. Ca2+-activated K+ channels in human red cells. Comparison of single-channel currents with ion fluxes
  104. Sodium-alanine cotransport in oocytes ofXenopus laevis: Correlation of alanine and sodium fluxes with potential and current changes
  105. Properties of the Ca2+-activated K+ conductance of human red cells as revealed by the patch-clamp technique
  106. CA2+-Activated K+ Channels in Erythrocytes and Excitable Cells
  107. Sodium and potassium channels in myelinated nerve fibers
  108. K-current fluctuations in inward-rectifying channels of frog skeletal muscle
  109. Fluctuation analysis of Na+ channels modified by batrachotoxin in myelinated nerve
  110. Block of Na channels in the membrane of myelinated nerve by benzocaine
  111. Increased charge displacement in the membrane of myelinated nerve at reduced extracellular pH
  112. Modification of sodium inactivation in myelinated nerve by Anemonia toxin II and iodate. Analysis of current fluctuations and current relaxations
  113. Interactions of benzocaine with Na channels in myelinated nerve
  114. Cs-induced K-current fluctuations in anomalous-rectifying channels of frog skeletal muscle
  115. Differences between K channels in motor and sensory nerve fibres of the frog as revealed by fluctuation analysis
  116. Slow actions of hyperpolarization on sodium channels in the membrane of myelinated nerve
  117. Temperature experiments on nerve and muscle membranes of frogs
  118. K channels in excitable cells as multi-ion pores
  119. Potassium channels as multi-ion single-file pores
  120. Ultraviolet-induced alterations of the sodium inactivation in myelinated nerve fibers
  121. Local anesthetics. Effect of pH on use-dependent block of sodium channels in frog muscle
  122. Kinetics of the slow variation of peak sodium current in the membrane of muelinated nerve following changes of holding potential or extracellular pH